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4 Measurement Setting
4.7 Setting of Data Format and Scale
106
➢
Display the real part of the measurement complex.
➢
It is similar to the linear amplitude format, but both the positive value and negative value can be displayed.
➢
Y-axis: no unit.
➢
Applicable typical measurement: time domain and auxiliary input voltage for maintenance purposes.
g) Imaginary part format
➢
Only display the imaginary part of measurement data.
➢
Y-axis: no unit.
➢
Applicable typical measurement: impedance measurement in design of matching network.
2) Polar coordinate format
The polar coordinate format shown in Fig. 4.24 includes the amplitude and phase information. The vector value can
be read in the following method.
a) The amplitude of any point is determined by the displacement of this point relative to the central point (or zero
point). In the default mode, the amplitude is a linear scale, and the excircle scale is set as 1.
b) The phase of any point is determined by the angle relative to the X-axis.
c) The frequency information can only be read through the marker. The default marker format includes the real part
and imaginary part. The
marker
dialog box can be opened in the
marker/analysis
menu. Other formats can be
selected in the
advanced marker
menu.
Fig. 4.23 Polar Coordinate Format
3) Smith chart format
Smith chart shown in Fig. 4.25 is a tool to map the reflection measurement data of the DUT into impedance. Each
point of the chart represents the complex impedance composed of the real resistance (R) and virtual reactance (±jX).
The resistance, reactance, equivalent capacitance and inductance can be read through the marker.
Summary of Contents for AV3672 Series
Page 3: ......
Page 4: ...AV3672 Series Vector Network Analyzer Contents...
Page 5: ......
Page 124: ...5 Menu 5 1 Menu structure 120 5 1 2 Track Fig 5 2 Track Menu...
Page 125: ...5 Menu 5 1 Menu structure 121 5 1 3 Channel Fig 5 3 Channel Menu...
Page 126: ...5 Menu 5 1 Menu structure 122 5 1 4 Excitation Fig 5 4 Excitation Menu I...
Page 127: ...5 Menu 5 1 Menu structure 123 Fig 5 5 Excitation Menu II...
Page 128: ...5 Menu 5 1 Menu structure 124 Fig 5 6 Excitation Menu III...
Page 129: ...5 Menu 5 1 Menu structure 125 5 1 5 Response Fig 5 7 Response Menu I...
Page 130: ...5 Menu 5 1 Menu structure 126 Fig 5 8 Repsonse Menu II...
Page 131: ...5 Menu 5 1 Menu structure 127 Fig 5 9 Response Menu III...
Page 132: ...5 Menu 5 1 Menu structure 128 Fig 5 10 Response Menu V Fig 5 11 Response IV...
Page 133: ...5 Menu 5 1 Menu structure 129 5 1 6 Calibration Fig 5 12 Calibration Menu...
Page 134: ...5 Menu 5 1 Menu structure 130 5 1 7 Marker Fig 5 13 Cursor Menu I...
Page 135: ...5 Menu 5 1 Menu structure 131 Fig 5 13 Cursor Menu II...
Page 136: ...5 Menu 5 1 Menu structure 132 Fig 5 15Marker Menu III...
Page 137: ...5 Menu 5 1 Menu structure 133 5 1 8 Analysis Fig 5 16 Analysis Menu I...
Page 138: ...5 Menu 5 1 Menu structure 134 Fig 5 17 Analysis Menu II...
Page 139: ...5 Menu 5 1 Menu structure 135 Fig 5 18 Analysis Menu III...
Page 140: ...5 Menu 5 1 Menu structure 136 5 1 9 System Fig 5 19 System Menu I...
Page 141: ...5 Menu 5 1 Menu structure 137 Fig 5 20 System Menu I...
Page 254: ...8 Basis of Network Measurement 8 3 Amplifier Parameter Specifications 250...
Page 257: ...8 Basis of Network Measurement 8 4 Complex Impedance 253...
Page 373: ...Appendix Appendix 4 Pulse Measurement 369 Fig 4 9 Receiver gain configuration Dialog Box...